/** -----------------------------------------------------------------
| Runs child processes in parallel on designated processors
| with descending priorities starting with parent priority.
*-----------------------------------------------------------------*/
void placed_par_pri(
code_p code[], void *userArgs[], uint stacksize[], uint16 pun[], uint nc)
{
// see if there are too many child processes to fit priority scheme
if (nc > PRI_PROCS) {
plotz("Too many child processes");
}
// current process is parent
Process *parent = get_current();
// initialize barrier
ParBarrier barrier;
par_barr_init(&barrier, parent, nc);
// child's priority level is parent's plus 1
int level = pri_level(parent->pri) + 1;
// see if level exceeds allowable number of levels
if (level > PRI_LEVELS) {
plotz("Too many PRI levels");
}
// enter preparing-to-wait state
PREPARE_TO_WAIT(parent);
// compute gap between child priorities
int delta = pri_delta(level);
// build and schedule each child process
int i;
int pri = parent->pri;
for (i = 0; i < nc; i++) {
Process *proc = make_process(run_in_par,
code[i],
(void *)&barrier,
stacksize[i],
priority(level, pri),
pun[i],
userArgs[i]);
pri += delta;
if (pun[i] == parent->pun) {
enqueue(proc);
} else {
schedule(proc);
}
}
// barrier will awaken parent when all children are done
relinquish();
}
/**
* Allocate block of length implied by index
* input: index 1..NALLOC-1
* output: array of words of size corresponding to index
*/
byte *allocate_mem(uint16 index)
{
claim_mutex(&mutex_mem);
ChainedBlock_p block = procmemlist[index];
if (block != NULL)
{
//previously allocated block available, remove it from list
procmemlist[index] = block->next;
}
else
{
uint16 len = procmemlen[index];
if (taillen >= len)
{
// tail is big enough, take block from tail
block = (ChainedBlock_p)tail;
tail = tail + len;
}
else
{
// out of memory
block = NULL;
plotz("Out of memory");
}
}
release_mutex(&mutex_mem);
return (byte *)block;
}
/**
* Find index of smallest allocation >= given size (bytes)
*/
int find_mem_index(uint size)
{
int i;
for (i = 0; procmemlen[i]; i++) {
if (procmemlen[i] >= size)
break;
}
if (procmemlen[i])
return i;
else
plotz("No memory block large enough");
}
void ariel_aa::Loop()
{
TFile plotz("cuts-testing.root","recreate");
// My variables
float minMass = 4.75; float maxMass = 6.0;
float div = 0.04;
int nBins = (maxMass - minMass)/div;
float acoll = 0.00;
float asig = 0.00;
float apt = 0.00;
float asmt = 0.00;
// ------------ HISTOGRAMS FOR MASS < 1 GeV ------------------------------------------
// dl_sig varied histograms, low mass
TH1F* m_1_dlsig_3_0 = new TH1F("m_1_dlsig_3_0", "low mass, dlsig 3_0", 40,minMass,maxMass);
TH1F* m_1_dlsig_3_2 = new TH1F("m_1_dlsig_3_2", "low mass, dlsig 3_2", 40,minMass,maxMass);
TH1F* m_1_dlsig_3_4 = new TH1F("m_1_dlsig_3_4", "low mass, dlsig 3_4", 40,minMass,maxMass);
TH1F* m_1_dlsig_3_6 = new TH1F("m_1_dlsig_3_6", "low mass, dlsig 3_6", 40,minMass,maxMass);
TH1F* m_1_dlsig_3_8 = new TH1F("m_1_dlsig_3_8", "low mass, dlsig 3_8", 40,minMass,maxMass);
TH1F* m_1_dlsig_4_0 = new TH1F("m_1_dlsig_4_0", "low mass, dlsig 4_0", 40,minMass,maxMass);
TH1F* m_1_dlsig_4_2 = new TH1F("m_1_dlsig_4_2", "low mass, dlsig 4_2", 40,minMass,maxMass);
TH1F* m_1_dlsig_4_4 = new TH1F("m_1_dlsig_4_4", "low mass, dlsig 4_4", 40,minMass,maxMass);
TH1F* m_1_dlsig_4_6 = new TH1F("m_1_dlsig_4_6", "low mass, dlsig 4_6", 40,minMass,maxMass);
TH1F* m_1_dlsig_4_8 = new TH1F("m_1_dlsig_4_8", "low mass, dlsig 4_8", 40,minMass,maxMass);
TH1F* m_1_dlsig_5_0 = new TH1F("m_1_dlsig_5_0", "low mass, dlsig 5_0", 40,minMass,maxMass);
TH1F* m_1_dlsig_5_2 = new TH1F("m_1_dlsig_5_2", "low mass, dlsig 5_2", 40,minMass,maxMass);
TH1F* m_1_dlsig_5_4 = new TH1F("m_1_dlsig_5_4", "low mass, dlsig 5_4", 40,minMass,maxMass);
TH1F* m_1_dlsig_5_6 = new TH1F("m_1_dlsig_5_6", "low mass, dlsig 5_6", 40,minMass,maxMass);
TH1F* m_1_dlsig_5_8 = new TH1F("m_1_dlsig_5_8", "low mass, dlsig 5_8", 40,minMass,maxMass);
TH1F* m_1_dlsig_6_0 = new TH1F("m_1_dlsig_6_0", "low mass, dlsig 6_0", 40,minMass,maxMass);
if (fChain == 0) return;
int aa = 5000; int nn = 0;
Int_t nentries = Int_t(fChain->GetEntries());
cout <<"Number of entries " << nentries << endl;
Int_t nbytes = 0, nb = 0;
Int_t iCountF = 0;
Int_t flag = 0;
Float_t dm[10];
Int_t count_m = 0;
//for (Int_t jentry=0; jentry<10000;jentry++) {
for (Int_t jentry=0; jentry<nentries;jentry++) {
// cout << "now at event # "<< jentry << endl;
Int_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(jentry/aa>nn) cout << "Event #" << jentry << endl;
nn = jentry/aa;
Int_t iFound = 0;
if(PV_npv<1 || PV_ntrk[0]<2) continue;
// Fill histograms with vertex info
count_m = 0;
for(int j=0; j<BPSIK_nvtx; j++) {
int jpsi_id = BPSIK_id[j];
//require JPSI
if( (PSI_q1[jpsi_id]+PSI_q2[jpsi_id])==0 && PSI_chi2[jpsi_id]<10.0
&&
PSI_pt1[jpsi_id]>=1.5 && PSI_pt2[jpsi_id]>=1.5 &&
PSI_smt1[jpsi_id]>=1 && PSI_smt2[jpsi_id]>=1 &&
PSI_mass[jpsi_id]>2.8 && PSI_mass[jpsi_id]<3.3 &&
PSI_pt[jpsi_id]>3.) {
float mass = BPSIK_mass[j];
float massc1 = BPSIK_massc1[j];
float massc2 = BPSIK_massc2[j];
float chi2 = BPSIK_chi2[j];
float dl = BPSIK_dl[j];
float coll = BPSIK_collinearity[j];
float dl_sig = dl/BPSIK_dlError[j];
float Kch2 = BPSIK_kchi2vtx[j];
float Kpt = BPSIK_kpt[j];
int Ksmt = BPSIK_khits[j];
int flag =0;
// Keep kch2, chi2, Ksmt, Kpt, coll constant, vary dl_sig:
if(Kch2<=10 && chi2<20 && Ksmt>=0 && Kpt>1.0 && coll>0.95){
if (dl_sig>=3.0){m_1_dlsig_3_0->Fill(massc1);}
if (dl_sig>=3.2){m_1_dlsig_3_2->Fill(massc1);}
if (dl_sig>=3.4){m_1_dlsig_3_4->Fill(massc1);}
if (dl_sig>=3.6){m_1_dlsig_3_6->Fill(massc1);}
if (dl_sig>=3.8){m_1_dlsig_3_8->Fill(massc1);}
if (dl_sig>=4.0){m_1_dlsig_4_0->Fill(massc1);}
if (dl_sig>=4.2){m_1_dlsig_4_2->Fill(massc1);}
if (dl_sig>=4.4){m_1_dlsig_4_4->Fill(massc1);}
if (dl_sig>=4.6){m_1_dlsig_4_6->Fill(massc1);}
if (dl_sig>=4.8){m_1_dlsig_4_8->Fill(massc1);}
if (dl_sig>=5.0){m_1_dlsig_5_0->Fill(massc1);}
if (dl_sig>=5.2){m_1_dlsig_5_2->Fill(massc1);}
if (dl_sig>=5.4){m_1_dlsig_5_4->Fill(massc1);}
if (dl_sig>=5.6){m_1_dlsig_5_6->Fill(massc1);}
if (dl_sig>=5.8){m_1_dlsig_5_8->Fill(massc1);}
if (dl_sig>=6.0){m_1_dlsig_6_0->Fill(massc1);}
}
}
}
}
plotz->Write();
cout << "COMPLETE!";
}
void jh_052003::Loop()
{
TFile plotz("jh_052003.root","recreate");
// My variables
float minMass = 4.75; float maxMass = 6.0;
float div = 0.04;
int nBins = (maxMass - minMass)/div;
float acoll = 0.00;
float asig = 0.00;
float apt = 0.00;
float asmt = 0.00;
// ------------ HISTOGRAMS FOR MASS < 1 GeV ------------------------------------------
TH1F* m_lo_coll_080 = new TH1F("m_lo_coll_080", "low mass, coll 080", 40,minMass,maxMass);
TH1F* m_lo_coll_100 = new TH1F("m_lo_coll_100", "low mass, coll 100", 40,minMass,maxMass);
TH1F* m_lo_coll_125 = new TH1F("m_lo_coll_125", "low mass, coll 125", 40,minMass,maxMass);
TH1F* m_lo_coll_150 = new TH1F("m_lo_coll_150", "low mass, coll 150", 40,minMass,maxMass);
TH1F* m_lo_coll_175 = new TH1F("m_lo_coll_175", "low mass, coll 175", 40,minMass,maxMass);
TH1F* m_lo_coll_200 = new TH1F("m_lo_coll_200", "low mass, coll 200", 40,minMass,maxMass);
TH1F* m_lo_coll_225 = new TH1F("m_lo_coll_225", "low mass, coll 225", 40,minMass,maxMass);
TH1F* m_lo_coll_250 = new TH1F("m_lo_coll_250", "low mass, coll 250", 40,minMass,maxMass);
TH1F* m_lo_coll_275 = new TH1F("m_lo_coll_275", "low mass, coll 275", 40,minMass,maxMass);
TH1F* m_lo_coll_300 = new TH1F("m_lo_coll_300", "low mass, coll 300", 40,minMass,maxMass);
TH1F* m_lo_coll_325 = new TH1F("m_lo_coll_325", "low mass, coll 325", 40,minMass,maxMass);
TH1F* m_lo_coll_350 = new TH1F("m_lo_coll_350", "low mass, coll 350", 40,minMass,maxMass);
TH1F* m_lo_coll_375 = new TH1F("m_lo_coll_375", "low mass, coll 375", 40,minMass,maxMass);
TH1F* m_lo_coll_400 = new TH1F("m_lo_coll_400", "low mass, coll 400", 40,minMass,maxMass);
TH1F* m_lo_coll_425 = new TH1F("m_lo_coll_425", "low mass, coll 425", 40,minMass,maxMass);
TH1F* m_lo_coll_450 = new TH1F("m_lo_coll_450", "low mass, coll 450", 40,minMass,maxMass);
TH1F* m_lo_coll_475 = new TH1F("m_lo_coll_475", "low mass, coll 475", 40,minMass,maxMass);
TH1F* m_lo_coll_500 = new TH1F("m_lo_coll_500", "low mass, coll 500", 40,minMass,maxMass);
TH1F* m_lo_coll_525 = new TH1F("m_lo_coll_525", "low mass, coll 525", 40,minMass,maxMass);
TH1F* m_lo_coll_550 = new TH1F("m_lo_coll_550", "low mass, coll 550", 40,minMass,maxMass);
TH1F* m_lo_coll_575 = new TH1F("m_lo_coll_575", "low mass, coll 575", 40,minMass,maxMass);
TH1F* m_lo_coll_600 = new TH1F("m_lo_coll_600", "low mass, coll 600", 40,minMass,maxMass);
TH1F* m_lo_coll_625 = new TH1F("m_lo_coll_625", "low mass, coll 625", 40,minMass,maxMass);
TH1F* m_lo_coll_650 = new TH1F("m_lo_coll_650", "low mass, coll 650", 40,minMass,maxMass);
TH1F* m_lo_coll_675 = new TH1F("m_lo_coll_675", "low mass, coll 675", 40,minMass,maxMass);
TH1F* m_lo_coll_700 = new TH1F("m_lo_coll_700", "low mass, coll 700", 40,minMass,maxMass);
TH1F* m_lo_coll_725 = new TH1F("m_lo_coll_725", "low mass, coll 725", 40,minMass,maxMass);
TH1F* m_lo_coll_750 = new TH1F("m_lo_coll_750", "low mass, coll 750", 40,minMass,maxMass);
TH1F* m_lo_coll_775 = new TH1F("m_lo_coll_775", "low mass, coll 775", 40,minMass,maxMass);
TH1F* m_lo_coll_800 = new TH1F("m_lo_coll_800", "low mass, coll 800", 40,minMass,maxMass);
TH1F* m_lo_coll_825 = new TH1F("m_lo_coll_825", "low mass, coll 825", 40,minMass,maxMass);
TH1F* m_lo_coll_850 = new TH1F("m_lo_coll_850", "low mass, coll 850", 40,minMass,maxMass);
TH1F* m_lo_coll_875 = new TH1F("m_lo_coll_875", "low mass, coll 875", 40,minMass,maxMass);
TH1F* m_lo_coll_900 = new TH1F("m_lo_coll_900", "low mass, coll 900", 40,minMass,maxMass);
TH1F* m_lo_coll_925 = new TH1F("m_lo_coll_925", "low mass, coll 925", 40,minMass,maxMass);
TH1F* m_lo_coll_950 = new TH1F("m_lo_coll_950", "low mass, coll 950", 40,minMass,maxMass);
// dl_sig varied histograms, low mass
TH1F* m_lo_dlsig_3_0 = new TH1F("m_lo_dlsig_3_0", "low mass, dlsig 3_0", 40,minMass,maxMass);
TH1F* m_lo_dlsig_3_2 = new TH1F("m_lo_dlsig_3_2", "low mass, dlsig 3_2", 40,minMass,maxMass);
TH1F* m_lo_dlsig_3_4 = new TH1F("m_lo_dlsig_3_4", "low mass, dlsig 3_4", 40,minMass,maxMass);
TH1F* m_lo_dlsig_3_6 = new TH1F("m_lo_dlsig_3_6", "low mass, dlsig 3_6", 40,minMass,maxMass);
TH1F* m_lo_dlsig_3_8 = new TH1F("m_lo_dlsig_3_8", "low mass, dlsig 3_8", 40,minMass,maxMass);
TH1F* m_lo_dlsig_4_0 = new TH1F("m_lo_dlsig_4_0", "low mass, dlsig 4_0", 40,minMass,maxMass);
TH1F* m_lo_dlsig_4_2 = new TH1F("m_lo_dlsig_4_2", "low mass, dlsig 4_2", 40,minMass,maxMass);
TH1F* m_lo_dlsig_4_4 = new TH1F("m_lo_dlsig_4_4", "low mass, dlsig 4_4", 40,minMass,maxMass);
TH1F* m_lo_dlsig_4_6 = new TH1F("m_lo_dlsig_4_6", "low mass, dlsig 4_6", 40,minMass,maxMass);
TH1F* m_lo_dlsig_4_8 = new TH1F("m_lo_dlsig_4_8", "low mass, dlsig 4_8", 40,minMass,maxMass);
TH1F* m_lo_dlsig_5_0 = new TH1F("m_lo_dlsig_5_0", "low mass, dlsig 5_0", 40,minMass,maxMass);
TH1F* m_lo_dlsig_5_2 = new TH1F("m_lo_dlsig_5_2", "low mass, dlsig 5_2", 40,minMass,maxMass);
TH1F* m_lo_dlsig_5_4 = new TH1F("m_lo_dlsig_5_4", "low mass, dlsig 5_4", 40,minMass,maxMass);
TH1F* m_lo_dlsig_5_6 = new TH1F("m_lo_dlsig_5_6", "low mass, dlsig 5_6", 40,minMass,maxMass);
TH1F* m_lo_dlsig_5_8 = new TH1F("m_lo_dlsig_5_8", "low mass, dlsig 5_8", 40,minMass,maxMass);
TH1F* m_lo_dlsig_6_0 = new TH1F("m_lo_dlsig_6_0", "low mass, dlsig 6_0", 40,minMass,maxMass);
// Ksmt varied histograms, low mass
TH1F* m_lo_Ksmt0 = new TH1F("m_lo_Ksmt0", "low mass, Ksmt 0", 40,minMass,maxMass);
TH1F* m_lo_Ksmt1 = new TH1F("m_lo_Ksmt1", "low mass, Ksmt 1", 40,minMass,maxMass);
TH1F* m_lo_Ksmt2 = new TH1F("m_lo_Ksmt2", "low mass, Ksmt 2", 40,minMass,maxMass);
TH1F* m_lo_Ksmt3 = new TH1F("m_lo_Ksmt3", "low mass, Ksmt 3", 40,minMass,maxMass);
// Kpt varied histograms, low mass
TH1F* m_lo_Kpt_0_5 = new TH1F("m_lo_Kpt_0_5", "low mass, Kpt 0_5", 40,minMass,maxMass);
TH1F* m_lo_Kpt_0_6 = new TH1F("m_lo_Kpt_0_6", "low mass, Kpt 0_6", 40,minMass,maxMass);
TH1F* m_lo_Kpt_0_7 = new TH1F("m_lo_Kpt_0_7", "low mass, Kpt 0_7", 40,minMass,maxMass);
TH1F* m_lo_Kpt_0_8 = new TH1F("m_lo_Kpt_0_8", "low mass, Kpt 0_8", 40,minMass,maxMass);
TH1F* m_lo_Kpt_0_9 = new TH1F("m_lo_Kpt_0_9", "low mass, Kpt 0_9", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_0 = new TH1F("m_lo_Kpt_1_0", "low mass, Kpt 1_0", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_1 = new TH1F("m_lo_Kpt_1_1", "low mass, Kpt 1_1", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_2 = new TH1F("m_lo_Kpt_1_2", "low mass, Kpt 1_2", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_3 = new TH1F("m_lo_Kpt_1_3", "low mass, Kpt 1_3", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_4 = new TH1F("m_lo_Kpt_1_4", "low mass, Kpt 1_4", 40,minMass,maxMass);
TH1F* m_lo_Kpt_1_5 = new TH1F("m_lo_Kpt_1_5", "low mass, Kpt 1_5", 40,minMass,maxMass);
// ------------ HISTOGRAMS FOR MASS > 1 GeV ------------------------------------------
// coll varied histograms, high mass
TH1F* m_hi_coll_080 = new TH1F("m_hi_coll_080", "high mass, coll 080", 40,minMass,maxMass);
TH1F* m_hi_coll_100 = new TH1F("m_hi_coll_100", "high mass, coll 100", 40,minMass,maxMass);
TH1F* m_hi_coll_125 = new TH1F("m_hi_coll_125", "high mass, coll 125", 40,minMass,maxMass);
TH1F* m_hi_coll_150 = new TH1F("m_hi_coll_150", "high mass, coll 150", 40,minMass,maxMass);
TH1F* m_hi_coll_175 = new TH1F("m_hi_coll_175", "high mass, coll 175", 40,minMass,maxMass);
TH1F* m_hi_coll_200 = new TH1F("m_hi_coll_200", "high mass, coll 200", 40,minMass,maxMass);
TH1F* m_hi_coll_225 = new TH1F("m_hi_coll_225", "high mass, coll 225", 40,minMass,maxMass);
TH1F* m_hi_coll_250 = new TH1F("m_hi_coll_250", "high mass, coll 250", 40,minMass,maxMass);
TH1F* m_hi_coll_275 = new TH1F("m_hi_coll_275", "high mass, coll 275", 40,minMass,maxMass);
TH1F* m_hi_coll_300 = new TH1F("m_hi_coll_300", "high mass, coll 300", 40,minMass,maxMass);
TH1F* m_hi_coll_325 = new TH1F("m_hi_coll_325", "high mass, coll 325", 40,minMass,maxMass);
TH1F* m_hi_coll_350 = new TH1F("m_hi_coll_350", "high mass, coll 350", 40,minMass,maxMass);
TH1F* m_hi_coll_375 = new TH1F("m_hi_coll_375", "high mass, coll 375", 40,minMass,maxMass);
TH1F* m_hi_coll_400 = new TH1F("m_hi_coll_400", "high mass, coll 400", 40,minMass,maxMass);
TH1F* m_hi_coll_425 = new TH1F("m_hi_coll_425", "high mass, coll 425", 40,minMass,maxMass);
TH1F* m_hi_coll_450 = new TH1F("m_hi_coll_450", "high mass, coll 450", 40,minMass,maxMass);
TH1F* m_hi_coll_475 = new TH1F("m_hi_coll_475", "high mass, coll 475", 40,minMass,maxMass);
TH1F* m_hi_coll_500 = new TH1F("m_hi_coll_500", "high mass, coll 500", 40,minMass,maxMass);
TH1F* m_hi_coll_525 = new TH1F("m_hi_coll_525", "high mass, coll 525", 40,minMass,maxMass);
TH1F* m_hi_coll_550 = new TH1F("m_hi_coll_550", "high mass, coll 550", 40,minMass,maxMass);
TH1F* m_hi_coll_575 = new TH1F("m_hi_coll_575", "high mass, coll 575", 40,minMass,maxMass);
TH1F* m_hi_coll_600 = new TH1F("m_hi_coll_600", "high mass, coll 600", 40,minMass,maxMass);
TH1F* m_hi_coll_625 = new TH1F("m_hi_coll_625", "high mass, coll 625", 40,minMass,maxMass);
TH1F* m_hi_coll_650 = new TH1F("m_hi_coll_650", "high mass, coll 650", 40,minMass,maxMass);
TH1F* m_hi_coll_675 = new TH1F("m_hi_coll_675", "high mass, coll 675", 40,minMass,maxMass);
TH1F* m_hi_coll_700 = new TH1F("m_hi_coll_700", "high mass, coll 700", 40,minMass,maxMass);
TH1F* m_hi_coll_725 = new TH1F("m_hi_coll_725", "high mass, coll 725", 40,minMass,maxMass);
TH1F* m_hi_coll_750 = new TH1F("m_hi_coll_750", "high mass, coll 750", 40,minMass,maxMass);
TH1F* m_hi_coll_775 = new TH1F("m_hi_coll_775", "high mass, coll 775", 40,minMass,maxMass);
TH1F* m_hi_coll_800 = new TH1F("m_hi_coll_800", "high mass, coll 800", 40,minMass,maxMass);
TH1F* m_hi_coll_825 = new TH1F("m_hi_coll_825", "high mass, coll 825", 40,minMass,maxMass);
TH1F* m_hi_coll_850 = new TH1F("m_hi_coll_850", "high mass, coll 850", 40,minMass,maxMass);
TH1F* m_hi_coll_875 = new TH1F("m_hi_coll_875", "high mass, coll 875", 40,minMass,maxMass);
TH1F* m_hi_coll_900 = new TH1F("m_hi_coll_900", "high mass, coll 900", 40,minMass,maxMass);
TH1F* m_hi_coll_925 = new TH1F("m_hi_coll_925", "high mass, coll 925", 40,minMass,maxMass);
TH1F* m_hi_coll_950 = new TH1F("m_hi_coll_950", "high mass, coll 950", 40,minMass,maxMass);
// dl_sig varied histograms, high mass
TH1F* m_hi_dlsig_3_0 = new TH1F("m_hi_dlsig_3_0", "high mass, dlsig 3_0", 40,minMass,maxMass);
TH1F* m_hi_dlsig_3_2 = new TH1F("m_hi_dlsig_3_2", "high mass, dlsig 3_2", 40,minMass,maxMass);
TH1F* m_hi_dlsig_3_4 = new TH1F("m_hi_dlsig_3_4", "high mass, dlsig 3_4", 40,minMass,maxMass);
TH1F* m_hi_dlsig_3_6 = new TH1F("m_hi_dlsig_3_6", "high mass, dlsig 3_6", 40,minMass,maxMass);
TH1F* m_hi_dlsig_3_8 = new TH1F("m_hi_dlsig_3_8", "high mass, dlsig 3_8", 40,minMass,maxMass);
TH1F* m_hi_dlsig_4_0 = new TH1F("m_hi_dlsig_4_0", "high mass, dlsig 4_0", 40,minMass,maxMass);
TH1F* m_hi_dlsig_4_2 = new TH1F("m_hi_dlsig_4_2", "high mass, dlsig 4_2", 40,minMass,maxMass);
TH1F* m_hi_dlsig_4_4 = new TH1F("m_hi_dlsig_4_4", "high mass, dlsig 4_4", 40,minMass,maxMass);
TH1F* m_hi_dlsig_4_6 = new TH1F("m_hi_dlsig_4_6", "high mass, dlsig 4_6", 40,minMass,maxMass);
TH1F* m_hi_dlsig_4_8 = new TH1F("m_hi_dlsig_4_8", "high mass, dlsig 4_8", 40,minMass,maxMass);
TH1F* m_hi_dlsig_5_0 = new TH1F("m_hi_dlsig_5_0", "high mass, dlsig 5_0", 40,minMass,maxMass);
TH1F* m_hi_dlsig_5_2 = new TH1F("m_hi_dlsig_5_2", "high mass, dlsig 5_2", 40,minMass,maxMass);
TH1F* m_hi_dlsig_5_4 = new TH1F("m_hi_dlsig_5_4", "high mass, dlsig 5_4", 40,minMass,maxMass);
TH1F* m_hi_dlsig_5_6 = new TH1F("m_hi_dlsig_5_6", "high mass, dlsig 5_6", 40,minMass,maxMass);
TH1F* m_hi_dlsig_5_8 = new TH1F("m_hi_dlsig_5_8", "high mass, dlsig 5_8", 40,minMass,maxMass);
TH1F* m_hi_dlsig_6_0 = new TH1F("m_hi_dlsig_6_0", "high mass, dlsig 6_0", 40,minMass,maxMass);
// Ksmt varied histograms, high mass
TH1F* m_hi_Ksmt0 = new TH1F("m_hi_Ksmt0", "high mass, Ksmt 0", 40,minMass,maxMass);
TH1F* m_hi_Ksmt1 = new TH1F("m_hi_Ksmt1", "high mass, Ksmt 1", 40,minMass,maxMass);
TH1F* m_hi_Ksmt2 = new TH1F("m_hi_Ksmt2", "high mass, Ksmt 2", 40,minMass,maxMass);
TH1F* m_hi_Ksmt3 = new TH1F("m_hi_Ksmt3", "high mass, Ksmt 3", 40,minMass,maxMass);
// Kpt varied histograms, high mass
TH1F* m_hi_Kpt_0_5 = new TH1F("m_hi_Kpt_0_5", "high mass, Kpt 0_5", 40,minMass,maxMass);
TH1F* m_hi_Kpt_0_6 = new TH1F("m_hi_Kpt_0_6", "high mass, Kpt 0_6", 40,minMass,maxMass);
TH1F* m_hi_Kpt_0_7 = new TH1F("m_hi_Kpt_0_7", "high mass, Kpt 0_7", 40,minMass,maxMass);
TH1F* m_hi_Kpt_0_8 = new TH1F("m_hi_Kpt_0_8", "high mass, Kpt 0_8", 40,minMass,maxMass);
TH1F* m_hi_Kpt_0_9 = new TH1F("m_hi_Kpt_0_9", "high mass, Kpt 0_9", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_0 = new TH1F("m_hi_Kpt_1_0", "high mass, Kpt 1_0", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_1 = new TH1F("m_hi_Kpt_1_1", "high mass, Kpt 1_1", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_2 = new TH1F("m_hi_Kpt_1_2", "high mass, Kpt 1_2", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_3 = new TH1F("m_hi_Kpt_1_3", "high mass, Kpt 1_3", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_4 = new TH1F("m_hi_Kpt_1_4", "high mass, Kpt 1_4", 40,minMass,maxMass);
TH1F* m_hi_Kpt_1_5 = new TH1F("m_hi_Kpt_1_5", "high mass, Kpt 1_5", 40,minMass,maxMass);
// Kpt Histograms
TH1F* kpt_nc = new TH1F("kpt_nc", "Kpt, no cuts",50,0.0,2.0);
TH1F* kpt_lo = new TH1F("kpt_lo", "0.5<Kpt<1.0",50,0.5,1.0);
TH1F* kpt_hi = new TH1F("kpt_hi", "Kpt>1.0",50,1.0,1.5);
TH1F* dl_sig_lo = new TH1F("dl_sig_lo", "dl_sig for 0.5<Kpt<1.0", 50,3.0,6.0);
TH1F* dl_sig_hi = new TH1F("dl_sig_hi", "dl_sig for Kpt>1.0", 50,3.0,6.0);
TH1F* coll_lo = new TH1F("coll_lo", "coll for 0.5<Kpt<1.0", 50,0.08,0.95);
TH1F* coll_hi = new TH1F("coll_hi", "coll for Kpt>1.0", 50,0.08,0.95);
TH1F* ksmt_lo = new TH1F("ksmt_lo", "ksmt for 0.5<Kpt<1.0", 50,0.0,3.0);
TH1F* ksmt_hi = new TH1F("ksmt_hi", "ksmt for Kpt>1.0", 50,0.0,3.0);
if (fChain == 0) return;
int aa = 1000; int nn = 0;
Int_t nentries = Int_t(fChain->GetEntries());
cout <<"Number of entries " << nentries << endl;
Int_t nbytes = 0, nb = 0;
Int_t iCountF = 0;
Int_t flag = 0;
Float_t dm[10];
Int_t count_m = 0;
//for (Int_t jentry=0; jentry<30000;jentry++) {
for (Int_t jentry=0; jentry<nentries;jentry++) {
Int_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(jentry/aa>nn) cout << "Event #" << jentry << endl;
nn = jentry/aa;
Int_t iFound = 0;
if(PV_npv<1 || PV_ntrk[0]<2) continue;
// Fill histograms with vertex info
count_m = 0;
for(int j=0; j<BPSIK_nvtx; j++) {
int jpsi_id = BPSIK_id[j];
//require JPSI
if( (PSI_q1[jpsi_id]+PSI_q2[jpsi_id])==0 && PSI_chi2[jpsi_id]<10.0
&&
PSI_pt1[jpsi_id]>=1.5 && PSI_pt2[jpsi_id]>=1.5 &&
PSI_smt1[jpsi_id]>=1 && PSI_smt2[jpsi_id]>=1 &&
PSI_mass[jpsi_id]>2.8 && PSI_mass[jpsi_id]<3.3 &&
PSI_pt[jpsi_id]>3.) {
float mass = BPSIK_mass[j];
float massc1 = BPSIK_massc1[j];
float massc2 = BPSIK_massc2[j];
float chi2 = BPSIK_chi2[j];
float dl = BPSIK_dl[j];
float coll = BPSIK_collinearity[j];
float dl_sig = dl/BPSIK_dlError[j];
float Kch2 = BPSIK_kchi2vtx[j];
float Kpt = BPSIK_kpt[j];
int Ksmt = BPSIK_khits[j];
int flag =0;
// FILL THE KPT HISTOGRAMS ---------------------------------
if(Kch2<=10 && chi2<10){
kpt_nc->Fill(Kpt);
}
if(Kch2<=10 && chi2<10 && dl_sig>=4.5 && Ksmt>1 && coll>0.95){
kpt_lo->Fill(Kpt);
kpt_hi->Fill(Kpt);
}
if(Kch2<=10 && chi2<10 && BPSIK_kchisq[j]>0.00001 && Kpt>=0.5 && Kpt<=1.0){
dl_sig_lo->Fill(dl_sig);
ksmt_lo->Fill(Ksmt);
coll_lo->Fill(coll);
}
if(Kch2<=10 && chi2<10 && Kpt>=1.0){
dl_sig_hi->Fill(dl_sig);
ksmt_hi->Fill(Ksmt);
coll_hi->Fill(coll);
}
// ----- 0.5 -> 1. GeV pt cuts --------------------------------
// if(Kch2<=10 && chi2<10 && dl_sig>5.5 && coll>0.95 && Ksmt>=1 &&
// Kpt>0.5 && Kpt < 1.0 && BPSIK_kchisq[j]>0.00001){
// h_mass_2->Fill(massc1);
// flag = 2;
//}
// Keep kch2, chi2, dl_sig, Ksmt, Kpt constant, vary coll:
if(Kch2<=10 && chi2<10 && dl_sig>5.5 && Ksmt>=1 &&
Kpt>0.5 && BPSIK_kchisq[j]>0.00001 && coll>=0.08){
m_lo_coll_080->Fill(massc1);
if (coll>=0.100){
m_lo_coll_100->Fill(massc1);
if (coll>=0.125){
m_lo_coll_125->Fill(massc1);
if (coll>=0.150){
m_lo_coll_150->Fill(massc1);
if (coll>=0.175){
m_lo_coll_175->Fill(massc1);
if (coll>=0.200){
m_lo_coll_200->Fill(massc1);
if (coll>=0.225){
m_lo_coll_225->Fill(massc1);
if (coll>=0.250){
m_lo_coll_250->Fill(massc1);
if (coll>=0.275){
m_lo_coll_275->Fill(massc1);
if (coll>=0.300){
m_lo_coll_300->Fill(massc1);
if (coll>=0.325){
m_lo_coll_325->Fill(massc1);
if (coll>=0.350){
m_lo_coll_350->Fill(massc1);
if (coll>=0.375){
m_lo_coll_375->Fill(massc1);
if (coll>=0.400){
m_lo_coll_400->Fill(massc1);
if (coll>=0.425){
m_lo_coll_425->Fill(massc1);
if (coll>=0.450){
m_lo_coll_450->Fill(massc1);
if (coll>=0.475){
m_lo_coll_475->Fill(massc1);
if (coll>=0.500){
m_lo_coll_500->Fill(massc1);
if (coll>=0.525){
m_lo_coll_525->Fill(massc1);
if (coll>=0.550){
m_lo_coll_550->Fill(massc1);
if (coll>=0.575){
m_lo_coll_575->Fill(massc1);
if (coll>=0.600){
m_lo_coll_600->Fill(massc1);
if (coll>=0.625){
m_lo_coll_625->Fill(massc1);
if (coll>=0.650){
m_lo_coll_650->Fill(massc1);
if (coll>=0.675){
m_lo_coll_675->Fill(massc1);
if (coll>=0.700){
m_lo_coll_700->Fill(massc1);
if (coll>=0.725){
m_lo_coll_725->Fill(massc1);
if (coll>=0.750){
m_lo_coll_750->Fill(massc1);
if (coll>=0.775){
m_lo_coll_775->Fill(massc1);
if (coll>=0.800){
m_lo_coll_800->Fill(massc1);
if (coll>=0.825){
m_lo_coll_825->Fill(massc1);
if (coll>=0.850){
m_lo_coll_850->Fill(massc1);
if (coll>=0.875){
m_lo_coll_875->Fill(massc1);
if (coll>=0.900){
m_lo_coll_900->Fill(massc1);
if (coll>=0.925){
m_lo_coll_925->Fill(massc1);
if (coll>=0.950){
m_lo_coll_950->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
// Keep kch2, chi2, dl_sig, Ksmt, coll constant, vary Kpt:
if(Kch2<=10 && chi2<10 && dl_sig>5.5 && coll>0.95 && Ksmt>=1 &&
BPSIK_kchisq[j]>0.00001 && Kpt>=0.5){
m_lo_Kpt_0_5->Fill(massc1);
if (Kpt>=0.6){
m_lo_Kpt_0_6->Fill(massc1);
if (Kpt>=0.7){
m_lo_Kpt_0_7->Fill(massc1);
if (Kpt>=0.8){
m_lo_Kpt_0_8->Fill(massc1);
if (Kpt>=0.9){
m_lo_Kpt_0_9->Fill(massc1);
if (Kpt>=1.0){
m_lo_Kpt_1_0->Fill(massc1);
if (Kpt>=1.1){
m_lo_Kpt_1_1->Fill(massc1);
if (Kpt>=1.2){
m_lo_Kpt_1_2->Fill(massc1);
if (Kpt>=1.3){
m_lo_Kpt_1_3->Fill(massc1);
if (Kpt>=1.4){
m_lo_Kpt_1_4->Fill(massc1);
if (Kpt>=1.5){
m_lo_Kpt_1_5->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
// Keep kch2, chi2, dl_sig, Kpt, coll constant, vary Ksmt:
if(Kch2<=10 && chi2<10 && dl_sig>5.5 && coll>0.95 &&
Kpt>0.5 && BPSIK_kchisq[j]>0.00001 && Ksmt>=0){
m_lo_Ksmt0->Fill(massc1);
if (Ksmt>=1){
m_lo_Ksmt1->Fill(massc1);
if (Ksmt>=2){
m_lo_Ksmt2->Fill(massc1);
if (Ksmt>=3){
m_lo_Ksmt3->Fill(massc1);
}
}
}
}
// Keep kch2, chi2, Ksmt, Kpt, coll constant, vary dl_sig:
if(Kch2<=10 && chi2<10 && coll>0.95 && Ksmt>=1 &&
Kpt>0.5 && BPSIK_kchisq[j]>0.00001 && dl_sig>=3.0){
m_lo_dlsig_3_0->Fill(massc1);
if (dl_sig>=3.2){
m_lo_dlsig_3_2->Fill(massc1);
if (dl_sig>=3.4){
m_lo_dlsig_3_4->Fill(massc1);
if (dl_sig>=3.6){
m_lo_dlsig_3_6->Fill(massc1);
if (dl_sig>=3.8){
m_lo_dlsig_3_8->Fill(massc1);
if (dl_sig>=4.0){
m_lo_dlsig_4_0->Fill(massc1);
if (dl_sig>=4.2){
m_lo_dlsig_4_2->Fill(massc1);
if (dl_sig>=4.4){
m_lo_dlsig_4_4->Fill(massc1);
if (dl_sig>=4.6){
m_lo_dlsig_4_6->Fill(massc1);
if (dl_sig>=4.8){
m_lo_dlsig_4_8->Fill(massc1);
if (dl_sig>=5.0){
m_lo_dlsig_5_0->Fill(massc1);
if (dl_sig>=5.2){
m_lo_dlsig_5_2->Fill(massc1);
if (dl_sig>=5.4){
m_lo_dlsig_5_4->Fill(massc1);
if (dl_sig>=5.6){
m_lo_dlsig_5_6->Fill(massc1);
if (dl_sig>=5.8){
m_lo_dlsig_5_8->Fill(massc1);
if (dl_sig>=6.0){
m_lo_dlsig_6_0->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
// ------- 1 GeV pt cuts -----------------------------------------
// Keep kch2, chi2, dl_sig, Ksmt, Kpt constant, vary coll:
if(Kch2<=10 && chi2<20 && dl_sig>4.5 && Ksmt>=0 && Kpt>1.0 && coll>=0.08){
m_hi_coll_080->Fill(massc1);
if (coll>=0.100){
m_hi_coll_100->Fill(massc1);
if (coll>=0.125){
m_hi_coll_125->Fill(massc1);
if (coll>=0.150){
m_hi_coll_150->Fill(massc1);
if (coll>=0.175){
m_hi_coll_175->Fill(massc1);
if (coll>=0.200){
m_hi_coll_200->Fill(massc1);
if (coll>=0.225){
m_hi_coll_225->Fill(massc1);
if (coll>=0.250){
m_hi_coll_250->Fill(massc1);
if (coll>=0.275){
m_hi_coll_275->Fill(massc1);
if (coll>=0.300){
m_hi_coll_300->Fill(massc1);
if (coll>=0.325){
m_hi_coll_325->Fill(massc1);
if (coll>=0.350){
m_hi_coll_350->Fill(massc1);
if (coll>=0.375){
m_hi_coll_375->Fill(massc1);
if (coll>=0.400){
m_hi_coll_400->Fill(massc1);
if (coll>=0.425){
m_hi_coll_425->Fill(massc1);
if (coll>=0.450){
m_hi_coll_450->Fill(massc1);
if (coll>=0.475){
m_hi_coll_475->Fill(massc1);
if (coll>=0.500){
m_hi_coll_500->Fill(massc1);
if (coll>=0.525){
m_hi_coll_525->Fill(massc1);
if (coll>=0.550){
m_hi_coll_550->Fill(massc1);
if (coll>=0.575){
m_hi_coll_575->Fill(massc1);
if (coll>=0.600){
m_hi_coll_600->Fill(massc1);
if (coll>=0.625){
m_hi_coll_625->Fill(massc1);
if (coll>=0.650){
m_hi_coll_650->Fill(massc1);
if (coll>=0.675){
m_hi_coll_675->Fill(massc1);
if (coll>=0.700){
m_hi_coll_700->Fill(massc1);
if (coll>=0.725){
m_hi_coll_725->Fill(massc1);
if (coll>=0.750){
m_hi_coll_750->Fill(massc1);
if (coll>=0.775){
m_hi_coll_775->Fill(massc1);
if (coll>=0.800){
m_hi_coll_800->Fill(massc1);
if (coll>=0.825){
m_hi_coll_825->Fill(massc1);
if (coll>=0.850){
m_hi_coll_850->Fill(massc1);
if (coll>=0.875){
m_hi_coll_875->Fill(massc1);
if (coll>=0.900){
m_hi_coll_900->Fill(massc1);
if (coll>=0.925){
m_hi_coll_925->Fill(massc1);
if (coll>=0.950){
m_hi_coll_950->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
// Keep kch2, chi2, dl_sig, Ksmt, coll constant, vary Kpt:
if(Kch2<=10 && chi2<20 && dl_sig>4.5 && Ksmt>=0 && coll>0.95 && Kpt>=0.5){
m_hi_Kpt_0_5->Fill(massc1);
if (Kpt>=0.6){
m_hi_Kpt_0_6->Fill(massc1);
if (Kpt>=0.7){
m_hi_Kpt_0_7->Fill(massc1);
if (Kpt>=0.8){
m_hi_Kpt_0_8->Fill(massc1);
if (Kpt>=0.9){
m_hi_Kpt_0_9->Fill(massc1);
if (Kpt>=1.0){
m_hi_Kpt_1_0->Fill(massc1);
if (Kpt>=1.1){
m_hi_Kpt_1_1->Fill(massc1);
if (Kpt>=1.2){
m_hi_Kpt_1_2->Fill(massc1);
if (Kpt>=1.3){
m_hi_Kpt_1_3->Fill(massc1);
if (Kpt>=1.4){
m_hi_Kpt_1_4->Fill(massc1);
if (Kpt>=1.5){
m_hi_Kpt_1_5->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
// Keep kch2, chi2, dl_sig, Kpt, coll constant, vary Ksmt:
if(Kch2<=10 && chi2<20 && dl_sig>4.5 && Kpt>1.0 && coll>0.95 && Ksmt>=0){
m_hi_Ksmt0->Fill(massc1);
if (Ksmt>=1){
m_hi_Ksmt1->Fill(massc1);
if (Ksmt>=2){
m_hi_Ksmt2->Fill(massc1);
if (Ksmt>=3){m_hi_Ksmt3->Fill(massc1);}
}
}
}
// Keep kch2, chi2, Ksmt, Kpt, coll constant, vary dl_sig:
if(Kch2<=10 && chi2<20 && Ksmt>=0 && Kpt>1.0 && coll>0.95 && dl_sig>=3.0){
m_hi_dlsig_3_0->Fill(massc1);
if (dl_sig>=3.2){
m_hi_dlsig_3_2->Fill(massc1);
if (dl_sig>=3.4){
m_hi_dlsig_3_4->Fill(massc1);
if (dl_sig>=3.6){
m_hi_dlsig_3_6->Fill(massc1);
if (dl_sig>=3.8){
m_hi_dlsig_3_8->Fill(massc1);
if (dl_sig>=4.0){
m_hi_dlsig_4_0->Fill(massc1);
if (dl_sig>=4.2){
m_hi_dlsig_4_2->Fill(massc1);
if (dl_sig>=4.4){
m_hi_dlsig_4_4->Fill(massc1);
if (dl_sig>=4.6){
m_hi_dlsig_4_6->Fill(massc1);
if (dl_sig>=4.8){
m_hi_dlsig_4_8->Fill(massc1);
if (dl_sig>=5.0){
m_hi_dlsig_5_0->Fill(massc1);
if (dl_sig>=5.2){
m_hi_dlsig_5_2->Fill(massc1);
if (dl_sig>=5.4){
m_hi_dlsig_5_4->Fill(massc1);
if (dl_sig>=5.6){
m_hi_dlsig_5_6->Fill(massc1);
if (dl_sig>=5.8){
m_hi_dlsig_5_8->Fill(massc1);
if (dl_sig>=6.0){
m_hi_dlsig_6_0->Fill(massc1);
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
plotz.Write();
cout << "COMPLETE!";
}
